Used

Keysight E4362A 130V/5A 600W Solar Array Simulator DC Module (Pre-Owned)

Keysight E4362A 130V/5A 600W Solar Array Simulator DC Module (Pre-Owned)

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Keysight E4362A 130V/5A 600W Solar Array Simulator DC Module (Pre-Owned)

Key Features At A Glance

  • Modular 2U mainframe holds up to 2 output modules delivering up to 1200 W total output power
  • Three operating modes: Simulator (SAS) mode, Table mode (user-defined I-V curves up to 4000 points), and Fixed mode
  • Fast I-V curve generation — 30 ms with 256-point table or 350 ms with 4,096-point table for higher resolution
  • LIST mode supports up to 512 pre-programmed I-V curves with dwell times from 30 ms to 33,554 seconds
  • Built-in voltage and current measurement with data logging at 10 readings/s
  • LAN, USB 2.0, and GPIB interfaces standard; fully compliant with LXI Class C specifications
  • Universal AC input (100–240 VAC, 50/60/400 Hz) with power factor correction
  • Over-voltage, over-current, and over-temperature protection with coupled fault shutdown in under 10 microseconds
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The Keysight E4360A Modular Solar Array Simulator is a dual-output programmable DC power source that simulates the output characteristics of a solar array. Built as a 2U-high modular mainframe, the E4360A accepts up to two output modules and delivers up to 1200 W of total output power. The instrument functions primarily as a current source with very low output capacitance, enabling rapid simulation of the I-V curve of different solar arrays under different conditions such as temperature, irradiation, and aging effects.

The E4360 platform supports two primary application areas described in its specifications. The first is satellite test, where solar panels powering satellites have unique I-V characteristics that vary with environmental conditions (temperature, irradiation) and operational conditions (eclipse, spin) — requiring a specialized power source to verify the satellite power system on the ground. The second is residential photovoltaic test, where the E4360 simulates solar panel outputs for testing microinverters and DC power optimizers across various environmental conditions including sunny conditions, cloudy conditions, shadowing, and different temperatures to verify maximum power point tracking, accuracy, reliability, and efficiency.

Brand Heritage

Keysight Technologies was spun out of Agilent Technologies in 2014 as a dedicated test and measurement company. Agilent itself was created in 1999 when Hewlett-Packard separated its test and measurement, semiconductor, and chemical analysis businesses from its computing operations. The Keysight name carries the engineering heritage of HP's instrument division, which has produced precision measurement equipment since the 1939 founding of Hewlett-Packard.

Compare Other Models in This Series

The Keysight E4360 platform is offered in two parallel ordering paths. The mainframe-plus-modules path lets the user combine an E4360A mainframe with up to two output modules (E4361A or E4362A) ordered separately — useful when the user wants to assemble or reconfigure the instrument themselves. The preconfigured path delivers the same hardware as a fully assembled, factory-tested instrument under a single model number: E4367A (two E4361A low-voltage modules in an E4360A mainframe), E4368A (two E4362A high-voltage modules in an E4360A mainframe), or E4366A (an E4360A mainframe with two special-option modules).

Beyond the standard configurations, the E4362A is offered in several J-suffix variants (E4362A-J01 through E4362A-J05) and the E4361A in a J01 variant. These variants represent specific voltage/current/power combinations within the same mainframe architecture, addressing applications that fall between or outside the standard module ratings. All variants share the same simulation modes, programming interfaces, protection features, and form factor as the base modules.

Each pre-owned model below is its own dedicated product page with condition-matched pricing, availability, and documentation. The comparison table that follows shows the headline electrical differences between the modules and configurations in the E4360 family so engineers can identify the right voltage, current, and power combination for their application.

The E4360A is the mainframe itself — the 2U chassis that provides AC input, control interfaces (LAN, USB, GPIB), the front-panel display and keypad, hardware trigger I/O, and the two module slots that accept E4361A or E4362A output modules. Ordered as a mainframe-only product, the E4360A is the foundation around which a single-module or dual-module solar array simulator is built. Any empty module slot must be filled with a Filler Panel (Option FLR / product E4369A) for proper cooling and airflow.

The two standard output modules differ primarily in voltage range and current capacity within the same 510–600 W power envelope. The E4361A delivers 65 V open-circuit voltage at up to 8.5 A short-circuit current (510 W maximum), targeting lower-voltage, higher-current solar array characteristics. The E4362A delivers 130 V open-circuit voltage at up to 5.0 A short-circuit current (600 W maximum), targeting higher-voltage panel simulations. Both share the same SAS, Table, and Fixed operating modes, the same programming interfaces, and the same 2U mainframe compatibility.

The E4362A J-suffix variants expand the voltage/current trade space: J01 (117 V / 5.5 A / 594 W), J02 (120 V / 5.4 A / 594 W), J03 (108 V / 6 A / 598 W), J04 (170 V / 3.8 A / 596 W — the highest voltage variant in the family), and J05 (95 V / 6.3 A / 552.5 W). The E4361A-J01 variant offers 58 V / 9.3 A / 498 W — the highest current rating in the family. The comparison table below lists the specific Vmax, Imax, and Pmax for each variant so the right module can be matched to the simulated array's expected operating range.

Model Max Power Max Open Circuit Voltage (Voc) Max Short Circuit Current (Isc)
E4362A 600 W 130 V 5.0 A
E4360A 1200 W
E4361A 510 W 65 V 8.5 A
E4366A 1200 W

Additional differences in specifications beyond the few shown above are not listed here — see each model's full specifications below.

Product Core & Specifications

Specification E4362A
Maximum power (Simulator and table mode) 600 W
Maximum open circuit voltage (Voc) 130 V
Maximum voltage point (Vmp) 120 V
Maximum short circuit current (Isc), Line 200/230/240 V 5.0 A
Maximum current point (Imp), Line 200/230/240 V 5.0 A
Maximum short circuit current (Isc), Line 100/120 V 2.5 A
Maximum current point (Imp), Line 100/120 V 2.5 A
Minimum impedance (ΔV/ΔVl), Fixed mode 1 Ω
Fixed mode voltage 0 - 120 V
Fixed mode current, Line 200/230/240 V 0 - 5.0 A
Fixed mode current, Line 100/120 V 0 - 2.5 A
Current derating factor (40 to 55 °C) 0.069 A/°C
Output voltage ripple & noise, Simulator/table mode 24 mVrms / 195 mVp-p
Output voltage ripple & noise, Fixed mode (CV) 30 mVrms / 150 mVp-p
Programming accuracy, Fixed mode voltage (@ 23 ±5 °C) 0.075% + 50 mV
Programming accuracy, Fixed mode current 0.2% + 10 mA
Readback accuracy, voltage 0.08% + 50 mV
Readback accuracy, +Current 0.20% + 10 mA
Readback accuracy, −Current 0.35% + 24 mA
Load regulation (Fixed mode), constant voltage 2 mV
Load regulation (Fixed mode), constant current 1 mA
Line regulation (Fixed mode), constant voltage 2 mV
Line regulation (Fixed mode), constant current 1 mA
Output current ripple & noise, Simulator/table mode 4 mArms / 32 mAp-p
Output current ripple & noise, Fixed mode (CC) 2.5 mArms / 19 mAp-p
Output programming range, Simulator/table mode voltage 0 - 130 V
Output programming range, Fixed mode voltage 0 - 123 V
Output programming current, Line 200/230/240 V 0 - 5.1 A
Output programming current, Line 100/120 V 0 - 2.55 A
Overvoltage protection range 0 - 140 V
Overcurrent limit range 0 - 6.25 A
Programming resolution, voltage 37 mV
Programming resolution, current 1.6 mA
Programming resolution, OVP 600 mV
Programming resolution, overcurrent limit 27 mA
Programming accuracy, OVP 1.2 V
Programming accuracy, overcurrent limit 0.5% + 125 mA
Current monitor (referenced to P common) 1.0% + 75 mA
Fixed mode analog programming 1.0% + 3.2 mA
+Ip to −Ip differential input (0 to full scale) 0 to -4 V
Max. common mode voltage (referenced to +OUT) ±18 V
Nominal input impedance 20 kΩ
Drift/temperature stability, voltage 0.04% + 2 mV
Drift/temperature stability, current 0.1% + 0.5 mA
Temperature coefficient, voltage 0.01% + 650 µV
Temperature coefficient, current 0.025% + 125 µA
Output capacitance < 50 nF
Maximum reverse diode current (with fans running) 5.0 A
Output current settling time < 5 µs
Maximum capacitive load (Simulator/table mode) 2000 µF
Maximum capacitive load (Fixed mode) 2000 µF
Load lead drop with remote sensing (Simulator/table) Up to 2 volts + (Voc - Vmp)
Load lead drop with remote sensing (Fixed mode) Up to 2 volts total
Current sinking capability, Simulator/table mode 500 mA
Current sinking capability, Fixed mode 440 mA
Voltage programming rise/fall time < 8 ms
Voltage programming settling time 25 ms typical
Monotonicity Output is monotonic over entire rated voltage, current, temperature range
Auto-parallel configuration Up to 4 outputs
Series and shunt switching frequency 50 kHz maximum
Output terminal isolation (max, from chassis ground) ±240 Vdc
Recommended calibration interval 1 year
Net weight (single output module) 7.2 lbs (3.3 kg)
Important: When two modules are installed in the E4360A mainframe, AC mains rated at nominal 100–120 VAC cannot supply enough current for full output. Internal circuits limit each module to one half of its rated output current. For full rated output power (1200 W total), the mainframe must be operated at 200/230/240 VAC. With a single installed module, full output current is available at nominal 100–120 VAC.Important: AC mains circuits rated at nominal 100-120 VAC cannot supply enough current to power the E4360A mainframe when two output modules are installed. In this case, internal circuits will limit the output current of the modules to one half of their rating. To achieve full output power of 1200 W, the mainframe must be connected to an AC input of >=180 VAC (use Option 904 Power Cord, USA/Canada 240V).Important: 1U space is required between instruments to retain proper cooling; the E4360 mainframe uses side air vents.Important: When configuring a mainframe with less than 2 filled module slots, a Filler Panel Kit (Option FLR or E4369A) is required for proper operation.Important: For rack mounting, Option 908 Rack Mount Kit is required; standard rack mount hardware will not work.Important: Electrostatic discharges greater than 1 kV near the I/O connectors may cause the unit to reset and require operator intervention.Important: The unit may go out of specification when subjected to RF fields of 3 volts/meter in the frequency range of 26 MHz to 1 GHz.Important: Recommended calibration interval: 1 year.

About this used unit

  • Warranty included
  • Functional verification included
  • Standard Calibration Upgrade Options: No Calibration Required, NIST Traceable, Z540.1 or ISO 17025 with Data, Z540.3 Guardbanding with Data.
  • Note that unnecessary accessories may not be included (contact Test Architect to confirm).

Please review the Manufacturer's Data Sheet to verify published specifications. Feedback on this webpage is always welcome — please reach out to your Test Architect at any time for questions or concerns. Thank you, we truly appreciate you being our customer.

Model No

Keysight

Condition

Used

Manufacturer

Agilent